differential-equations / Elliptic systems; Liouville theorems

The Lane-Emden conjecture for elliptic systems, with its Henon-weighted extension

Claims Theorem 1.1: for every n≥2n\ge2, p,q>0p,q>0 and A,B∈RA,B\in\mathbb R with n+Ap+1+n+Bq+1>n−2\frac{n+A}{p+1}+\frac{n+B}{q+1}>n-2, the Henon-Lane-Emden system has no positive solution continuous at the origin and C2C^2 elsewhere, with no condition at infinity. Corollary 1.2 is the unweighted Lane-Emden conjecture; with Bidaut-Veron and Giacomini's radial existence theorem this gives Phan's Conjecture C in full for n≥3n\ge3, A,B>−2A,B>-2, and Huang-Zou's Conjecture B. It does NOT classify solutions on the critical hyperbola beyond the cited radial existence, and treats only positive (not sign-changing) solutions.

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differential-equationsSep 24, 2026Significance 40/100Registry: lean checked

The Lane-Emden conjecture for elliptic systems, with its Henon-weighted extension

Prior state unknown→proved

Claims Theorem 1.1: for every n≥2n\ge2, p,q>0p,q>0 and A,B∈RA,B\in\mathbb R with n+Ap+1+n+Bq+1>n−2\frac{n+A}{p+1}+\frac{n+B}{q+1}>n-2, the Henon-Lane-Emden system has no positive solution continuous at the origin and C2C^2 elsewhere, with no condition at infinity. Corollary 1.2 is the unweighted Lane-Emden conjecture; with Bidaut-Veron and Giacomini's radial existence theorem this gives Phan's Conjecture C in full for n≥3n\ge3, A,B>−2A,B>-2,…

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Claims Theorem 1.1: for every n≥2n\ge2, p,q>0p,q>0 and A,B∈RA,B\in\mathbb R with n+Ap+1+n+Bq+1>n−2\frac{n+A}{p+1}+\frac{n+B}{q+1}>n-2, the Henon-Lane-Emden system has no positive solution continuous at the origin and C2C^2 elsewhere, with no condition at infinity. Corollary 1.2 is the unweighted Lane-Emden conjecture; with Bidaut-Veron and Giacomini's radial existence theorem this gives Phan's Conjecture C in full for n≥3n\ge3, A,B>−2A,B>-2, and Huang-Zou's Conjecture B. It does NOT classify solutions on the critical hyperbola beyond the cited radial existence, and treats only positive (not sign-changing) solutions.

Claims Theorem 1.1: for every n≥2n\ge2, p,q>0p,q>0 and A,B∈RA,B\in\mathbb R with n+Ap+1+n+Bq+1>n−2\frac{n+A}{p+1}+\frac{n+B}{q+1}>n-2, the Henon-Lane-Emden system has no positive solution continuous at the origin and C2C^2 elsewhere, with no condition at infinity. Corollary 1.2 is the unweighted Lane-Emden conjecture; with Bidaut-Veron and Giacomini's radial existence theorem this gives Phan's Conjecture C in full for n≥3n\ge3, A,B>−2A,B>-2, and Huang-Zou's Conjecture B. It does NOT classify solutions on the critical hyperbola beyond the cited radial existence, and treats only positive (not sign-changing) solutions.

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The Lane-Emden conjecture for elliptic systems, with its Henon-weighted extension — Mathematical Frontier Network